Author
Listed:
- Mengmeng Liu
(National University of Singapore
National University of Singapore)
- Hongchen Guo
(National University of Singapore
National University of Singapore)
- Yu Jun Tan
(National University of Singapore
National University of Singapore
National University of Singapore)
- Kelu Yu
(National University of Singapore
National University of Singapore)
- Qiye Guan
(Taipa)
- Evgeny Zamburg
(National University of Singapore)
- Wen Cheng
(National University of Singapore
National University of Singapore)
- Xinyu Wang
(National University of Singapore
National University of Singapore)
- Lili Zhou
(National University of Singapore)
- Haiming Chen
(National University of Singapore)
- Yunxia Jin
(National University of Singapore)
- Xu Cheng
(National University of Singapore
National University of Singapore)
- Fang-Cheng Liang
(National University of Singapore)
- Baoshan Tang
(National University of Singapore)
- Hashina Parveen Anwar Ali
(National University of Singapore
National University of Singapore)
- Jingyi Yang
(National University of Singapore
National University of Singapore)
- Chaobin He
(National University of Singapore)
- Yongqing Cai
(Taipa)
- Aaron Voon-Yew Thean
(National University of Singapore)
- Zhong Lin Wang
(Chinese Academy of Sciences
Georgia Institute of Technology)
- Benjamin C. K. Tee
(National University of Singapore
National University of Singapore
National University of Singapore
National University of Singapore)
Abstract
Developing a sustainable, in-situ responsive sensing method for continuously monitoring water quality is crucial for water use and quality management globally. Conventional water quality monitoring sensors face challenges in achieving ultrafast response time and are non-recyclable. We present a self-assembly approach for a closed-loop recyclable, autonomous self-healing and transparent dielectric material with nanostructured amphiphobic surfaces (termed ‘ReSURF’). Our approach uses tribo-negative small molecules that spontaneously secrete onto the surface of the fluorine dielectric matrix via biomimetic microphase separation within minutes. ReSURF devices achieve millisecond water quality sensing response time (~6 ms), high signal-to-noise ratio (~30.7 dB) and can withstand large mechanical deformations (>760%, maximum of 1000% strain). We show ReSURF can be readily closed-loop recycled for reuse, underscoring its versatility. We further demonstrated its use in a soft stretchable fish-like robot for real-time water contamination (including perfluorooctanoic acid, a member of per- and polyfluoroalkyl substances (PFAS) and oily pollutants) assessments.
Suggested Citation
Mengmeng Liu & Hongchen Guo & Yu Jun Tan & Kelu Yu & Qiye Guan & Evgeny Zamburg & Wen Cheng & Xinyu Wang & Lili Zhou & Haiming Chen & Yunxia Jin & Xu Cheng & Fang-Cheng Liang & Baoshan Tang & Hashina , 2025.
"Recyclable self-secreting autonomous healing dielectrics for millisecond water quality sensing,"
Nature Communications, Nature, vol. 16(1), pages 1-12, December.
Handle:
RePEc:nat:natcom:v:16:y:2025:i:1:d:10.1038_s41467-025-59973-y
DOI: 10.1038/s41467-025-59973-y
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